//////////////////////////////////////////////////////////////////////////////////
// InitCamera --------------------------------------------------------------------
//////////////////////////////////////////////////////////////////////////////////
INT ofxUeye::InitCamera (HIDS *m_hCam, HWND hWnd)
{
INT nRet = is_InitCamera (m_hCam, hWnd);
/************************************************************************************************/
/* */
/* If the camera returns with "IS_STARTER_FW_UPLOAD_NEEDED", an upload of a new firmware */
/* is necessary. This upload can take several seconds. We recommend to check the required */
/* time with the function is_GetDuration(). */
/* */
/* In this case, the camera can only be opened if the flag "IS_ALLOW_STARTER_FW_UPLOAD" */
/* is "OR"-ed to m_hCam. This flag allows an automatic upload of the firmware. */
/* */
/************************************************************************************************/
if (nRet == IS_STARTER_FW_UPLOAD_NEEDED)
{
// Time for the firmware upload = 25 seconds by default
INT nUploadTime = 25000;
is_GetDuration (*m_hCam, IS_STARTER_FW_UPLOAD, &nUploadTime);
// Try again to open the camera. This time we allow the automatic upload of the firmware by
// specifying "IS_ALLOW_STARTER_FIRMWARE_UPLOAD"
*m_hCam = (HIDS) (((INT)*m_hCam) | IS_ALLOW_STARTER_FW_UPLOAD);
nRet = is_InitCamera (m_hCam, hWnd);
}
return nRet;
}
INT UEyeCamDriver::connectCam(int new_cam_ID) {
INT is_err = IS_SUCCESS;
int numCameras;
// Terminate any existing opened cameras
setStandbyMode();
// Updates camera ID if specified.
if (new_cam_ID >= 0) {
cam_id_ = new_cam_ID;
}
// Query for number of connected cameras
if ((is_err = is_GetNumberOfCameras(&numCameras)) != IS_SUCCESS) {
std::cerr << "Failed query for number of connected UEye cameras ("
<< err2str(is_err) << ")" << std::endl;
return is_err;
} else if (numCameras < 1) {
std::cerr << "No UEye cameras are connected" << std::endl;
return IS_NO_SUCCESS;
} // NOTE: previously checked if ID < numCameras, but turns out that ID can be arbitrary
// Attempt to open camera handle, and handle case where camera requires a
// mandatory firmware upload
cam_handle_ = (HIDS) cam_id_;
if ((is_err = is_InitCamera(&cam_handle_, NULL)) == IS_STARTER_FW_UPLOAD_NEEDED) {
INT uploadTimeMSEC = 25000;
is_GetDuration(cam_handle_, IS_STARTER_FW_UPLOAD, &uploadTimeMSEC);
std::cout << "Uploading new firmware to UEye camera '" << cam_name_
<< "'; please wait for about " << uploadTimeMSEC / 1000.0
<< " seconds" << std::endl;
// Attempt to re-open camera handle while triggering automatic firmware upload
cam_handle_ = (HIDS) (((INT) cam_handle_) | IS_ALLOW_STARTER_FW_UPLOAD);
is_err = is_InitCamera(&cam_handle_, NULL); // Will block for N seconds
}
if (is_err != IS_SUCCESS) {
std::cerr << "Could not open UEye camera ID " << cam_id_ << " ("
<< err2str(is_err) << ")" << std::endl;
return is_err;
}
// Set display mode to Device Independent Bitmap (DIB)
is_err = is_SetDisplayMode(cam_handle_, IS_SET_DM_DIB);
// Fetch sensor parameters
is_err = is_GetSensorInfo(cam_handle_, &cam_sensor_info_);
// Initialize local camera frame buffer
reallocateCamBuffer();
return is_err;
}
static int ids_core_Camera_init(ids_core_Camera *self, PyObject *args, PyObject *kwds) {
static char *kwlist[] = {"handle", "color", NULL};
int ret;
self->handle = 0;
self->bitdepth = 0;
self->color = IS_CM_RGB8_PACKED;
self->autofeatures = 0;
self->ready = NOT_READY;
LIST_INIT(&self->mem_list);
/*
* This means the definition is:
* def __init__(self, handle=0, color=ids_core.COLOR_RGB8):
*/
if (!PyArg_ParseTupleAndKeywords(args, kwds, "|ii", kwlist,
&self->handle, &self->color)) {
return -1;
}
ret = is_InitCamera(&self->handle, NULL);
switch (ret) {
case IS_SUCCESS:
break;
case IS_CANT_OPEN_DEVICE:
PyErr_SetString(PyExc_IOError, "Unable to open camera. Camera not connected.");
return -1;
case IS_INVALID_HANDLE:
PyErr_SetString(PyExc_IOError, "Unable to open camera. Invalid camera handle.");
return -1;
default:
PyErr_Format(PyExc_IOError, "Unable to open camera (Error %d).", ret);
return -1;
}
self->ready = CONNECTED;
if (!set_color_mode(self, self->color)) {
return -1;
}
/* Initialize image queue so we can WaitForNextImage */
if (is_InitImageQueue(self->handle, 0) != IS_SUCCESS) {
PyErr_SetString(PyExc_IOError, "Unable to start image queue.");
return -1;
}
/* Lookup maximum width, height, and name */
ret = init_cam_info(self);
if (ret) {
return -1;
}
self->ready = READY;
return 0;
}
INT WINAPI InitializeCamera(HIDS* m_hCam) {
// open camera with the given ID
INT result = is_InitCamera (m_hCam, NULL);
if (result == IS_STARTER_FW_UPLOAD_NEEDED) {
// Time for the firmware upload = 25 seconds by default
INT nUploadTime = 25000;
is_GetDuration (*m_hCam, IS_STARTER_FW_UPLOAD, &nUploadTime);
/*CString Str1, Str2, Str3;
Str1 = "This camera requires a new firmware. The upload will take about";
Str2 = "seconds. Please wait ...";
Str3.Format ("%s %d %s", Str1, nUploadTime / 1000, Str2);
AfxMessageBox (Str3, MB_ICONWARNING);*/
// Try again to open the camera. This time we allow the automatic upload of the firmware by
// specifying "IS_ALLOW_STARTER_FIRMWARE_UPLOAD"
*m_hCam = (HIDS) (((INT)*m_hCam) | IS_ALLOW_STARTER_FW_UPLOAD);
result = is_InitCamera (m_hCam, NULL);
}
return result;
}
bool FlosIDSAdaptor::openDevice()
{
if(isOpen()) {
return true;
}
INT nRet = is_InitCamera(&m_deviceID, NULL);
if(nRet != IS_SUCCESS) {
if(nRet == IS_STARTER_FW_UPLOAD_NEEDED) {
return false;
}
} else {
IS_SIZE_2D imageSize;
INT lMemoryId;
char *pcImageMemory;
is_AOI(m_deviceID, IS_AOI_IMAGE_GET_SIZE, (void *)&imageSize, sizeof(imageSize));
for(unsigned int i = 0; i < 25; i++) {
is_AllocImageMem(m_deviceID, imageSize.s32Width, imageSize.s32Height, 24, &pcImageMemory, &lMemoryId);
is_AddToSequence(m_deviceID, pcImageMemory, lMemoryId);
is_SetImageMem(m_deviceID, pcImageMemory, lMemoryId);
}
if(is_InitImageQueue(m_deviceID, 0) != IS_SUCCESS) {
imaqkit::adaptorWarn("FlosIDSAdaptor:openDevice","Something went wrong while allocating memory.");
return false;
}
}
m_acquireThread = CreateThread(NULL, 0, acquireThread, this, 0, &m_acquireThreadID);
if(m_acquireThread == NULL) {
closeDevice();
return false;
}
while(PostThreadMessage(m_acquireThreadID, WM_USER + 1, 0, 0) == 0) {
Sleep(10);
}
return true;
}
int CameraApi::openCamera()
{
int is_init = IS_NO_SUCCESS;
int is_mode = IS_NO_SUCCESS;
int is_alcM = IS_NO_SUCCESS;
int isLoad = IS_NO_SUCCESS;
is_init = is_InitCamera(&mhCam, 0);
if(is_init == IS_SUCCESS)
{
is_mode = is_SetDisplayMode(mhCam, IS_SET_DM_DIB);
}
if(is_mode == IS_SUCCESS)
{
ringbuffer = new char* [ringbufferSize];
ringbufferId = new int [ringbufferSize];
IS_SIZE_2D maxAoi;
is_AOI(mhCam, IS_AOI_IMAGE_GET_SIZE_MAX, &maxAoi, sizeof(maxAoi));
for(int i=0; i<ringbufferSize; i++)
{
is_AllocImageMem(mhCam, maxAoi.s32Width, maxAoi.s32Height, bitspixel(), &ringbuffer[i], &ringbufferId[i]);
is_AddToSequence(mhCam, ringbuffer[i], ringbufferId[i]);
}
isLoad = is_LoadParameters(mhCam, "cameraParameter.ini");
setAoi(0, 0, width(), height());
is_SetExternalTrigger(mhCam, IS_SET_TRIGGER_OFF);
is_CaptureVideo(mhCam, IS_WAIT);
}
if(isLoad == IS_SUCCESS)
return IS_SUCCESS;
else
return IS_NO_SUCCESS;
}
bool IdsSourceSink::Init()
{
PUEYE_CAMERA_LIST m_pCamList;
UEYE_CAMERA_INFO m_CameraInfo;
// init the internal camera info structure
ZeroMemory (&m_CameraInfo, sizeof(UEYE_CAMERA_INFO));
// get the cameralist from SDK
m_pCamList = new UEYE_CAMERA_LIST;
m_pCamList->dwCount = 0;
if (is_GetCameraList (m_pCamList) == IS_SUCCESS) {
DWORD dw = m_pCamList->dwCount;
delete m_pCamList;
// Reallocate the required camera list size
m_pCamList = (PUEYE_CAMERA_LIST)new char[sizeof(DWORD) + dw * sizeof(UEYE_CAMERA_INFO)];
m_pCamList->dwCount = dw;
// Get CameraList and store it ...
if (is_GetCameraList (m_pCamList) != IS_SUCCESS) return false;
} else return false;
if (m_pCamList->dwCount==0) {
qDebug()<<"No camera found";
return false;
} else if (m_pCamList->dwCount>1) {
qDebug()<<"More than 1 camera: "<<m_pCamList->dwCount;
}
// will use camera 0
memcpy (&m_CameraInfo, &m_pCamList->uci[0], sizeof(UEYE_CAMERA_INFO));
hCam = (HIDS) (m_CameraInfo.dwDeviceID | IS_USE_DEVICE_ID);
if(is_InitCamera (&hCam, NULL)!= IS_SUCCESS){
qDebug()<<"init not successful";
return false;
}
// double minFPS, maxFPS, FPSinterval;
// is_GetFrameTimeRange (hCam, &minFPS, &maxFPS, &FPSinterval);
//cout<< fixed << setprecision(4) << minFPS << " MINFPS " << maxFPS << " MAXFPS "<< FPSinterval << " FPSinterval " << endl;
//myfile<< fixed << setprecision(4) << minFPS << " MINFPS " << maxFPS << " MAXFPS "<< FPSinterval << " FPSinterval " << endl;
is_SetGainBoost (hCam, IS_SET_GAINBOOST_OFF);
is_SetWhiteBalance (hCam, IS_SET_WB_DISABLE);
// is_SetBrightness (hCam,0);
// is_SetContrast (hCam,0);
// is_SetGamma (hCam, 100);// Value multiplied by 100 (for the camera it goes from 0.01 to 10
is_SetHWGainFactor (hCam, IS_SET_MASTER_GAIN_FACTOR, 100);
uint pixelC=304;
is_PixelClock(hCam, IS_PIXELCLOCK_CMD_SET, (void*)&pixelC, sizeof(pixelC));
flagIDS= is_SetSubSampling (hCam, IS_SUBSAMPLING_2X_VERTICAL | IS_SUBSAMPLING_2X_HORIZONTAL); //Both are needed
//Configuration section: very important to match the img_bpp=8 with the chacracteristics of the CV::MAT image to use
//weird results like cropping or black lines can be obtained if not changed accordingly
int img_width=2048, img_height=2048, img_bpp=8, factorSMP=2; //Variable to state the Linehopping
// int img_step, img_data_size;
imgMem = NULL;
is_AllocImageMem(hCam, img_width/factorSMP, img_height/factorSMP, img_bpp, &imgMem, &memId);
is_SetImageMem (hCam, imgMem, memId);
// is_SetImageSize (hCam, img_width/factorSMP, img_height/factorSMP);
is_SetColorMode (hCam, IS_CM_MONO8);
is_SetDisplayMode (hCam, IS_SET_DM_DIB); // Direct buffer mode writes to RAM which is the only option on Linux
//OpenCV variables: REMEMBER THE SUBSAMPLING
buffer=cv::Mat::zeros(img_width/factorSMP,img_height/factorSMP, CV_8UC1);
return true;
}
//Open our camera
bool IDSCamera::OpenCamera()
{
if (m_hCam!=0)
{
//free old image mem.
is_FreeImageMem(m_hCam,m_pcImageMemory,m_lMemoryId);
is_ExitCamera(m_hCam);
}
// init camera
m_hCam = (HIDS) 0; // open next camera
m_Ret = is_InitCamera(&m_hCam,NULL); // init camera
if( m_Ret == IS_SUCCESS ){
// retrieve original image size
SENSORINFO sInfo;
is_GetSensorInfo(m_hCam,&sInfo);
m_nSizeX = sInfo.nMaxWidth;
m_nSizeY = sInfo.nMaxHeight;
// setup the color depth to the current windows setting
//is_GetColorDepth(m_hCam,&m_nBitsPerPixel,&m_nColorMode);
is_SetColorMode(m_hCam, IS_SET_CM_Y8);
//printf("m_nBitsPerPixel=%i m_nColorMode=%i\n",m_nBitsPerPixel,IS_SET_CM_Y8);
// memory initialization
is_AllocImageMem(m_hCam, m_nSizeX, m_nSizeY, m_nBitsPerPixel, &m_pcImageMemory, &m_lMemoryId);
//set memory active
is_SetImageMem( m_hCam, m_pcImageMemory,m_lMemoryId );
// display initialization
is_SetImageSize( m_hCam, m_nSizeX, m_nSizeY );
is_SetDisplayMode( m_hCam, IS_SET_DM_DIB);
// Reinit with slower frame rate for testing on vmWare with USB 1.1
if( is_LoadParameters( m_hCam, config_file ) == IS_SUCCESS )
{
// realloc image mem with actual sizes and depth.
is_FreeImageMem( m_hCam, m_pcImageMemory, m_lMemoryId );
m_nSizeX = is_SetImageSize( m_hCam, IS_GET_IMAGE_SIZE_X, 0 );
m_nSizeY = is_SetImageSize( m_hCam, IS_GET_IMAGE_SIZE_Y, 0 );
switch( is_SetColorMode( m_hCam, IS_GET_COLOR_MODE ) )
{
case IS_SET_CM_RGB32:
m_nBitsPerPixel = 32;
break;
case IS_SET_CM_RGB24:
m_nBitsPerPixel = 24;
break;
case IS_SET_CM_RGB16:
case IS_SET_CM_UYVY:
m_nBitsPerPixel = 16;
break;
case IS_SET_CM_RGB15:
m_nBitsPerPixel = 15;
break;
case IS_SET_CM_Y8:
case IS_SET_CM_RGB8:
case IS_SET_CM_BAYER:
default:
m_nBitsPerPixel = 8;
break;
}
// memory initialization
is_AllocImageMem( m_hCam,
m_nSizeX,
m_nSizeY,
m_nBitsPerPixel,
&m_pcImageMemory,
&m_lMemoryId);
is_SetImageMem(m_hCam, m_pcImageMemory, m_lMemoryId ); // set memory active
// display initialization
is_SetImageSize(m_hCam, m_nSizeX, m_nSizeY );
}
}
return true;
}
void get_en_image(pcl::PointCloud<pcl::PointXYZ> &cloud)
{
char flag = 'g';
int i = 0;
while(flag != 'q')
{
ostringstream conv;
conv << i;
cout<<"Capturing new calibration image from the ensenso stereo vision camera."<<endl;
///Read the Ensenso stereo cameras:
try {
// Initialize NxLib and enumerate cameras
nxLibInitialize(true);
// Reference to the first camera in the node BySerialNo
NxLibItem root;
NxLibItem camera = root[itmCameras][itmBySerialNo][0];
// Open the Ensenso
NxLibCommand open(cmdOpen);
open.parameters()[itmCameras] = camera[itmSerialNumber].asString();
open.execute();
// Capture an image
NxLibCommand (cmdCapture).execute();
// Stereo matching task
NxLibCommand (cmdComputeDisparityMap).execute ();
// Convert disparity map into XYZ data for each pixel
NxLibCommand (cmdComputePointMap).execute ();
// Get info about the computed point map and copy it into a std::vector
double timestamp;
std::vector<float> pointMap;
int width, height;
camera[itmImages][itmRaw][itmLeft].getBinaryDataInfo (0, 0, 0, 0, 0, ×tamp); // Get raw image timestamp
camera[itmImages][itmPointMap].getBinaryDataInfo (&width, &height, 0, 0, 0, 0);
camera[itmImages][itmPointMap].getBinaryData (pointMap, 0);
// Copy point cloud and convert in meters
//cloud.header.stamp = getPCLStamp (timestamp);
cloud.resize (height * width);
cloud.width = width;
cloud.height = height;
cloud.is_dense = false;
// Copy data in point cloud (and convert milimeters in meters)
for (size_t i = 0; i < pointMap.size (); i += 3)
{
cloud.points[i / 3].x = pointMap[i] / 1000.0;
cloud.points[i / 3].y = pointMap[i + 1] / 1000.0;
cloud.points[i / 3].z = pointMap[i + 2] / 1000.0;
}
NxLibCommand (cmdRectifyImages).execute();
// Save images
NxLibCommand saveImage(cmdSaveImage);
// raw left
saveImage.parameters()[itmNode] = camera[itmImages][itmRaw][itmLeft].path;
saveImage.parameters()[itmFilename] = "calib_en/raw_left" + conv.str()+".png";
saveImage.execute();
// raw right
/*saveImage.parameters()[itmNode] = camera[itmImages][itmRaw][itmRight].path;
saveImage.parameters()[itmFilename] = "calib_en/raw_right.png";
saveImage.execute();
// rectified left
saveImage.parameters()[itmNode] = camera[itmImages][itmRectified][itmLeft].path;
saveImage.parameters()[itmFilename] = "calib_en/rectified_left.png";
saveImage.execute();
// rectified right
saveImage.parameters()[itmNode] = camera[itmImages][itmRectified][itmRight].path;
saveImage.parameters()[itmFilename] = "calib_en/rectified_right.png";
saveImage.execute();*/
} catch (NxLibException& e) { // Display NxLib API exceptions, if any
printf("An NxLib API error with code %d (%s) occurred while accessing item %s.\n", e.getErrorCode(), e.getErrorText().c_str(), e.getItemPath().c_str());
if (e.getErrorCode() == NxLibExecutionFailed) printf("/Execute:\n%s\n", NxLibItem(itmExecute).asJson(true).c_str());
}
/*catch (NxLibException &ex)
{
ensensoExceptionHandling (ex, "grabSingleCloud");
}*/
catch (...) { // Display other exceptions
printf("Something, somewhere went terribly wrong!\n");
}
/*cout<<"Plug in the RGB camera and press any key to continue."<<endl;
cin.ignore();
cin.get();*/
cout<<"Capturing new calibration image from the ensenso RGB camera."<<endl;
///Read the IDS RGB Camera attached to the Ensenso stereo camera
HIDS hCam = 0;
printf("Success-Code: %d\n",IS_SUCCESS);
//Kamera öffnen
INT nRet = is_InitCamera (&hCam, NULL);
printf("Status Init %d\n",nRet);
//Pixel-Clock setzen
UINT nPixelClockDefault = 9;
nRet = is_PixelClock(hCam, IS_PIXELCLOCK_CMD_SET,
(void*)&nPixelClockDefault,
sizeof(nPixelClockDefault));
printf("Status is_PixelClock %d\n",nRet);
//Farbmodus der Kamera setzen
//INT colorMode = IS_CM_CBYCRY_PACKED;
INT colorMode = IS_CM_BGR8_PACKED;
nRet = is_SetColorMode(hCam,colorMode);
printf("Status SetColorMode %d\n",nRet);
UINT formatID = 4;
//Bildgröße einstellen -> 2592x1944
nRet = is_ImageFormat(hCam, IMGFRMT_CMD_SET_FORMAT, &formatID, 4);
printf("Status ImageFormat %d\n",nRet);
//Speicher für Bild alloziieren
char* pMem = NULL;
int memID = 0;
nRet = is_AllocImageMem(hCam, 1280, 1024, 24, &pMem, &memID);
printf("Status AllocImage %d\n",nRet);
//diesen Speicher aktiv setzen
nRet = is_SetImageMem(hCam, pMem, memID);
printf("Status SetImageMem %d\n",nRet);
//Bilder im Kameraspeicher belassen
INT displayMode = IS_SET_DM_DIB;
nRet = is_SetDisplayMode (hCam, displayMode);
printf("Status displayMode %d\n",nRet);
//Bild aufnehmen
nRet = is_FreezeVideo(hCam, IS_WAIT);
printf("Status is_FreezeVideo %d\n",nRet);
//Bild aus dem Speicher auslesen und als Datei speichern
String path = "./calib_en/snap_BGR"+conv.str()+".png";
std::wstring widepath;
for(int i = 0; i < path.length(); ++i)
widepath += wchar_t (path[i] );
IMAGE_FILE_PARAMS ImageFileParams;
ImageFileParams.pwchFileName = &widepath[0];
ImageFileParams.pnImageID = NULL;
ImageFileParams.ppcImageMem = NULL;
ImageFileParams.nQuality = 0;
ImageFileParams.nFileType = IS_IMG_PNG;
nRet = is_ImageFile(hCam, IS_IMAGE_FILE_CMD_SAVE, (void*) &ImageFileParams, sizeof(ImageFileParams));
printf("Status is_ImageFile %d\n",nRet);
//Kamera wieder freigeben
is_ExitCamera(hCam);
cout<<"To quit capturing calibration images, choose q. Else, choose any other letter."<<endl;
cin >> flag;
i++;
}
}
void mexFunction(int nlhs,mxArray *plhs[],int nrhs,const mxArray *prhs[])
{
// CHECK ARGS
if (nrhs != 0) {
mexErrMsgIdAndTxt( "Mscope:initialiseCamera:invalidNumInputs",
"No Input arguments accepted.");
}
if (nlhs > 2) {
mexErrMsgIdAndTxt( "Mscope:initialiseCamera:maxlhs",
"Too many output arguments.");
}
HCAM hCam = 0;
// CONNECT TO CAMERA AND GET THE HANDLE
int rv = is_InitCamera(&hCam, NULL);
// SET THE PIXEL CLOCK
UINT pixelClock = DFT_PX_CLOCK;
rv = is_PixelClock(hCam, IS_PIXELCLOCK_CMD_SET, (void*) &pixelClock, sizeof(pixelClock));
// FRAME RATE
double frameRate = DFT_FRAME_RATE;
double actualFrameRate;
rv = is_SetFrameRate(hCam, frameRate, &actualFrameRate);
// EXPOSURE TIME
double expTime = 10; // exposure time in ms
rv = is_Exposure(hCam, IS_EXPOSURE_CMD_SET_EXPOSURE, &expTime, 8);
// TRIGGER MODE
rv = is_SetExternalTrigger(hCam, IS_SET_TRIGGER_SOFTWARE);
// COLOR MODE
rv = is_SetColorMode(hCam, IS_CM_MONO8); // 8-bit monochrome
// SET THE SUBSAMPLING
rv = is_SetSubSampling(hCam, IS_SUBSAMPLING_4X_VERTICAL | IS_SUBSAMPLING_4X_HORIZONTAL);
// ALLOCATE MEMORY
int bitDepth = 8;
char* pcImgMem;
int id;
rv = is_AllocImageMem(hCam, H_PIX, V_PIX, bitDepth, &pcImgMem, &id);
// CALCULATE THE LINE PITCH
int linePitch;
rv = is_GetImageMemPitch(hCam, &linePitch);
std::printf("\nLine Pitch = %i\n",linePitch);
// SET MEMORY
rv = is_SetImageMem(hCam, pcImgMem, id);
// START CAPTURING
rv = is_CaptureVideo(hCam, IS_DONT_WAIT);
// RETURN CAMERA HANDLE
UINT8_T hCam8 = (UINT8_T) hCam;
mwSignedIndex scalarDims[2] = {1,1}; // elements in image
plhs[0] = mxCreateNumericArray(1, scalarDims, mxUINT8_CLASS, mxREAL);
double * hCamPtr = mxGetPr(plhs[0]);
memcpy(hCamPtr, &hCam8, sizeof(hCam8));
// RETURN MEMORY ID
UINT32_T id32 = (UINT32_T) id;
plhs[1] = mxCreateNumericArray(1, scalarDims, mxUINT32_CLASS, mxREAL);
double * mIdPtr = mxGetPr(plhs[1]);
memcpy(mIdPtr, &id32, sizeof(id32));
return;
}
